Lighting device with optical pulsation suppression by polyphase-driven electric energy

ABSTRACT

The present invention relies on polyphase alternating current power with phase difference or direct current power rectified from polyphase alternating current power to drive a common electric-driven luminous body, or to separately drive adjacently installed individual electric-driven luminous bodies so that the pulsation of the outwardly projected light is reduced.

CROSS-REFERENCE TO RELATED APPLICATION

This application is a Continuation-In-Part of my patent application Ser. No. 12/457,998, filed on Jun. 29, 2009.

BACKGROUND OF THE INVENTION

(a) Field of the Invention

The present invention relates to a method of reducing the pulsation rate of the luminous brightness following the alternating current power voltage of an electric-driven luminous body which directly uses alternating current power by means of polyphase-driven electric energy.

(b) Description of the Prior Art

The deficiency of traditional alternating current lamps lies in their discontinuous light optical pulsation caused by alternating current power pulsation

SUMMARY OF THE INVENTION

The present invention relies on polyphase alternating current power with phase difference or direct current power rectified from polyphase alternating current power to drive a common electric-driven luminous body, or to separately drive adjacently installed individual electric-driven luminous bodies so that the pulsation of the outwardly projected light is reduced.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is the optical pulsation oscillogram of the traditional single phase alternating current power or alternating current full wave-rectified direct current directly driving the electric-driven luminous body.

FIG. 2 is the circuit diagram of the electric-driven luminous body individually driven by single phase power in three ways through inductor split-phase current, capacitor split-phase current and the resultant vector current of the inductor and capacitor split-phase currents.

FIG. 3 is the circuit diagram of the circuit shown in FIG. 2 that the positions of the capacitor (201) and the electric-driven luminous body (102) and/or the inductor (301) and the electric-driven luminous body (103) are interchanged.

FIG. 4 is the brightness oscillogram of the electric-driven luminous bodies in FIG. 2 and FIG. 3.

FIG. 5 is the circuit block diagram of the present invention wherein the alternating current power is in parallel with the capacitor (201) which is in series with the electric-driven luminous body (102), the inductor (301) which is in series with the electric-driven luminous body (103), and directly with the electric-driven luminous body (101) or the electric-driven luminous body (101) series connected with the resistor (401).

FIG. 6 is the circuit block diagram of the present invention showing the capacitor (201) in series with the electric-driven luminous body (102) being arranged to parallel connect directly with the electric-driven luminous body (101) or with the electric-driven luminous body (101) in series with the resistor (401), so as to be driven by the alternating current or bidirectional power.

FIG. 7 is the circuit block diagram of the present invention showing the inductor (301) in series with the electric-driven luminous body (103) being arranged to parallel connect directly with the electric-driven luminous body (101) or with the electric-driven luminous body (101) in series with the resistor (401), so as to be driven by the alternating current or bidirectional power.

FIG. 8 is the circuit block diagram of the present invention showing the capacitor (201) in series with the electric-driven luminous body (102) being arranged to parallel connect with the electric-driven luminous body (103) in series with the inductor (301), so as to be driven by the alternating current or bidirectional power.

FIG. 9 is the circuit diagram of the present invention wherein the three phase four wire alternating current power is used to drive three sets of electric-driven luminous bodies in Y connection; as shown in FIG. 9.

FIG. 10 is the circuit diagram of the present invention wherein the three phase alternating current power is used to drive three sets of electric-driven luminous bodies in Δ connection; as shown in FIG. 10.

FIG. 11 is the first circuit diagram of the present invention wherein the three phase alternating current power is used to drive two sets of electric-driven luminous bodies in V connection; as shown in FIG. 11.

FIG. 12 is the second circuit diagram of the present invention wherein the three phase alternating current power is used to drive two sets of electric-driven luminous bodies in V connection.

FIG. 13 is the circuit diagram showing the three phase alternating current power being supplied, through the current limit component (Z10), to the three phase full wave direct current electric energy that had been rectified by the bridge rectifier, and then to the direct current electric-driven luminous body (2000).

FIG. 14 is the circuit diagram showing the three phase alternating current power being supplied, through the half-wave current limit impedance component (Z11), to the three phase half-wave rectifier (3500), and the rectified direct current electric energy is supplied to the direct current electric-driven luminous body (2000).

FIG. 15 is the circuit diagram showing that the single phase power being spilt by the capacitor and the inductor and then being full wave rectified, so as to drive the direct current electric-driven luminous body (2000).

FIG. 16 is the circuit diagram showing that the single phase power being spilt by the capacitor and the resistor and then being full wave rectified, so as to drive the direct current electric-driven luminous body (2000).

FIG. 17 is the circuit diagram showing that the single phase power being spilt by the inductor and the resistor and then being full wave rectified, so as to drive the direct current electric-driven luminous body (2000).

FIG. 18 is the circuit diagram showing that the single phase power being spilt by the inductor, the resistor, and the capacitor and then being full wave rectified, so as to drive the direct current electric-driven luminous body (2000).

FIG. 19 is the circuit diagram showing that the single phase power being spilt by the inductor and the resistor and then being half-wave rectified, so as to drive the direct current electric-driven luminous body (2000).

FIG. 20 is the circuit diagram in which each phase of the three-phase alternating current power being individually connected in parallel with a circuit device in series connected by the current limit component (Z10) and the alternative current terminal of single-phase bridge rectifier, then the direct current output terminal of the single-phase bridge rectifier of each phase being homo-polar connected in parallel for jointly driving the direct current electric-driven luminous body (2000).

FIG. 21 is the circuit diagram in which a circuit device in series connected to the current limit component (Z10) and the alternative current terminal of single-phase bridge rectifier being individually installed between the R, S, and T lines of the three phase four wire alternating current power and the neutral line (N) of the three phase four wire alternating current power, then the direct current output terminal of the single-phase bridge rectifier of each phase being homo-polar connected in parallel for jointly driving the direct current electric-driven luminous body (2000).

DESCRIPTION OF MAIN COMPONENT SYMBOLS

-   (101){grave over ( )}(102){grave over ( )}(103): Electric-driven     luminous body -   (1000): Inductive impedance component -   (1011){grave over ( )}(1012){grave over ( )}(1021){grave over (     )}(1022){grave over ( )}(1031){grave over ( )}(1032){grave over (     )}(2011){grave over ( )}(2012){grave over ( )}(3011){grave over ( )} -   (3012): Conductive terminals -   (2000): Direct current electric-driven luminous body -   (201): Capacitor -   (3000): Three-phase bridge rectifier -   (301): Inductor -   (3500) Three-phase half wave rectifier -   (401): Resistor -   (703){grave over ( )}(704): Rectifier diodes -   (802){grave over ( )}(803){grave over ( )}(804) Single phase bridge     rectifiers -   a: Alternating Current power wave form -   b: Wave form of direct current rectified from alternating current -   c Optical pulsation wave form of electric-driven luminous body -   (1101){grave over ( )}(1102){grave over ( )}(1103): Current -   N Neutral line -   R{grave over ( )}S{grave over ( )}T Three-phase alternating current     power lines -   (Z10): Current limit component -   (Z11) Half wave current limit impedance component

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

The deficiency of traditional alternating current lamps lies in their discontinuous light optical pulsation caused by alternating current power pulsation.

The present invention relies on polyphase alternating current power with phase difference or direct current power rectified from polyphase alternating current power to drive a common electric-driven luminous body, or to separately drive adjacently installed individual electric-driven luminous bodies so that the pulsation of the outwardly projected light is reduced.

FIG. 1 is the optical pulsation oscillogram of the traditional single phase alternating current power or alternating current full wave-rectified direct current directly driving the electric-driven luminous body.

As shown in FIG. 1, a is alternating current power wave form, b is wave form of direct current rectified from alternating current, and c is optical pulsation wave form of electric-driven luminous body; if the electric energy input is a bidirectional pulsating electric energy with a bidirectional non-sinusoidal wave, the improvement function is also the same.

FIG. 2 is the circuit diagram of the electric-driven luminous body individually driven by single phase power in three ways through inductor split-phase current, capacitor split-phase current and the resultant vector current of the inductor and capacitor split-phase currents.

As shown in FIG. 2, the components are:

The terminals (1011), (1021), and (1031) of the electric-driven luminous bodies (101), (102) and (103) driven by bidirectional electric energy are connected together, the other terminal (1022) of the electric-driven luminous body (102) is arranged to connect with one terminal (2011) of the capacitor (201), the other terminal (1032) of the electric-driven luminous body (103) is arranged to connect with one terminal (3011) of the inductor (301), another terminal (2012) of the capacitor (201) and anther terminal (3012) of the inductor (301) are connected and then leaded to one terminal of an alternating current or bidirectional electric energy, and the other terminal (1012) of the electric-driven luminous body (101) is arranged to connect with the other terminal of the alternating current or bidirectional electric energy, wherein the current (I101) that passes through the electric-driven luminous body (101) is the vector sum of the current (I102) that passes through the electric-driven luminous body (102) and the current (I103) of the electric-driven luminous body (103), i.e. the total current;

Electric-driven luminous bodies (101), (102), (103): constituted by gas bulbs with filaments, solid state electric-driven luminous bodies such as LED and other electric-driven luminous bodies, and wherein the three luminous bodies are integrated into one body or the three are adjacently installed.

FIG. 3 is the circuit diagram of the circuit shown in FIG. 2 that the positions of the capacitor (201) and the electric-driven luminous body (102) and/or the inductor (301) and the electric-driven luminous body (103) are interchanged; wherein

The terminal (1011) of the electric-driven luminous body (101), the terminal (2011) of the capacitor (201) and the terminal (3011) of the inductor (301) are connected together, the other terminal (2012) of the capacitor (201) is connected to the terminal (1021) of the electric-driven luminous body (102), the other terminal (3012) of the inductor (301) is connected to one terminal (1031) of the electric-driven luminous body (103), the other terminal (1022) of the electric-driven luminous body (102) and the terminal (1032) of the electric-driven luminous body (103) are connected then leaded to a terminal of a power source, and the other terminal (1012) of the electric-driven luminous body (101) is connected to the other terminal of the power source;

Electric-driven luminous bodies (101), (102), (103): constituted by gas bulbs with filaments, solid state electric-driven luminous bodies such as LED and other electric-driven luminous bodies, and wherein the three luminous bodies are integrated into one body or the three are adjacently installed.

Moreover, if the electric-driven luminous body series connected with one of the capacitor (201) or inductor (301) is directly connected in parallel with the electric-driven luminous body (101) or the electric-driven luminous body (101) series connected with the resistor, then the pulsation of the projected light energy is also improved;

FIG. 4 is the brightness oscillogram of the electric-driven luminous bodies in FIG. 2 and FIG. 3, and as shown in FIG. 4, the luminous pulsation is significantly reduced;

FIG. 5 is the circuit block diagram of the present invention wherein the alternating current power is in parallel with the capacitor (201) which is in series with the electric-driven luminous body (102), the inductor (301) which is in series with the electric-driven luminous body (103), and directly with the electric-driven luminous body (101) or the electric-driven luminous body (101) series connected with the resistor (401); as shown in FIG. 5, wherein the capacitor (201) which is series connected with the electric-driven luminous body (102), the inductor (301) which is series connected with the electric-driven luminous body (103), and the electric-driven luminous body (101) directly or the electric-driven luminous body (101) being series connected with the resistor (401) are arranged to parallel connect with the alternate current power source.

FIG. 6 is the circuit block diagram of the present invention showing the capacitor (201) in series with the electric-driven luminous body (102) being arranged to parallel connect directly with the electric-driven luminous body (101) or with the electric-driven luminous body (101) in series with the resistor (401), so as to be driven by the alternating current or bidirectional power; as shown in FIG. 6, the capacitor (201) series connects with the electric-driven luminous body (102), and connects in parallel directly with the electric-driven luminous body (101) or with the electric-driven luminous body (101) in series with the resistor (401), so as to be driven by the alternating current or bidirectional power.

FIG. 7 is the circuit block diagram of the present invention showing the inductor (301) in series with the electric-driven luminous body (103) being arranged to parallel connect directly with the electric-driven luminous body (101) or with the electric-driven luminous body (101) in series with the resistor (401), so as to be driven by the alternating current or bidirectional power; as shown in FIG. 7, the inductor (301) series connects with the electric-driven luminous body (103), and connects in parallel directly with the electric-driven luminous body (101) or with the electric-driven luminous body (101) in series with the resistor (401), so as to be driven by the alternating current or bidirectional power.

FIG. 8 is the circuit block diagram of the present invention showing the capacitor (201) in series with the electric-driven luminous body (102) being arranged to parallel connect with the electric-driven luminous body (103) in series with the inductor (301), so as to be driven by the alternating current or bidirectional power; as shown in FIG. 8, the capacitor (201) series connects with the electric-driven luminous body (102), and connects in parallel with the electric-driven luminous body (103) in series with the inductor (301), so as to be driven by the alternating current or bidirectional power.

The lighting device with pulsation suppression by polyphase-driven electric energy can also be applied by three-phase alternating current power to supply electricity to the electric-driven luminous body, so as to minimize the pulsation of the luminous brightness.

FIG. 9 is the circuit diagram of the present invention wherein the three phase four wire alternating current power is used to drive three sets of electric-driven luminous bodies in Y connection; as shown in FIG. 9, it consists of:

One terminal of the electric-driven luminous body (101) directly connects, or the electric-driven luminous body (101) is firstly connected in series with the resistive and/or capacitive and/or inductive impedance component (1000) then connects to a three-phase power line R, while the other terminal leads to a common joint point of Y connection;

One terminal of the electric-driven luminous body (102) directly connects, or the electric-driven luminous body (102) is firstly connected in series with the resistive and/or capacitive and/or inductive impedance component (1000) then connects to a three-phase power line S, while the other terminal leads to a common joint point of Y connection;

One terminal of the electric-driven luminous body (103) directly connects, or the electric-driven luminous body (103) is firstly connected in series with the resistive and/or capacitive and/or inductive impedance component (1000) then connects to a three-phase power line T, while the other terminal leads to a common joint point of Y connection;

FIG. 10 is the circuit diagram of the present invention wherein the three phase alternating current power is used to drive three sets of electric-driven luminous bodies in Δ connection; as shown in FIG. 10, it consists of:

The electric-driven luminous body (101) is directly parallel connected between the power line R and the power line S, or is firstly series connected with the resistive and/or capacitive and/or inductive impedance component (1000) and then parallel connected between the power line R and the power line S;

The electric-driven luminous body (102) is directly parallel connected between the power line R and the power line S, or is firstly series connected with the resistive and/or capacitive and/or inductive impedance component (1000) and then parallel connected between the power line S and the power line T;

The electric-driven luminous body (103) is directly parallel connected between the power line R and the power line S, or is firstly series connected with the resistive and/or capacitive and/or inductive impedance component (1000) and then parallel connected between the power line T and the power line R;

FIG. 11 is the first circuit diagram of the present invention wherein the three phase alternating current power is used to drive two sets of electric-driven luminous bodies in V connection; as shown in FIG. 11, it consists of:

The electric-driven luminous body (101) is directly parallel connected between the power line R and the power line S, or is firstly series connected with the resistive and/or capacitive and/or inductive impedance component (1000) and then parallel connected between the power line R and the power line S;

The electric-driven luminous body (102) is directly parallel connected between the power line R and the power line S, or is firstly series connected with the resistive and/or capacitive and/or inductive impedance component (1000) and then parallel connected between the power line S and the power line T;

FIG. 12 is the second circuit diagram of the present invention wherein the three phase alternating current power is used to drive two sets of electric-driven luminous bodies in V connection; as shown in FIG. 12, it consists of:

The electric-driven luminous body (101) is series connected with the electric-driven luminous body (102), and then parallel connected between the power line R and the power line T;

The power line S, after connecting in series with a resistive and/or capacitive and/or inductive impedance component (1000), is then connected to the series connection point of the electric-driven luminous body (101) and the electric-driven luminous body (102).

The lighting device with optical pulsation suppression by polyphase-driven electric energy further relies on the direct current power rectified from polyphase alternating current power to drive a common electric-driven luminous body, or to separately drive adjacently installed individual electric-driven luminous bodies, so as to reduce the pulsation of the outwardly projected light, in which

FIG. 13 is the circuit diagram showing the three phase alternating current power being supplied, through the current limit component (Z10), to the three phase full wave direct current electric energy that had been rectified by the bridge rectifier, and then to the direct current electric-driven luminous body (2000);

As shown in FIG. 13, it consists of:

The input terminals of three-phase alternating current power—R, S, and T of the three-phase bridge rectifier (3000) are respectively connected in series with the current limit component (Z10) and then connect to the three-phase alternating current power, wherein the current limit component (Z10) is consisted of the resistor (401) and/or the inductor (301) and/or the capacitor (201); the direct current electric energy output from the direct current output terminal is supplied to the direct current electric-driven luminous body (2000);

Direct current electric-driven luminous body (2000): constituted by gas bulb with filament, or solid state electric-driven luminous body such as LED and other electric-driven luminous body;

FIG. 14 is the circuit diagram showing the three phase alternating current power being supplied, through the half-wave current limit impedance component (Z11), to the three phase half-wave rectifier (3500), and the rectified direct current electric energy is supplied to the direct current electric-driven luminous body (2000);

As shown in FIG. 14, it consists of:

The input terminals of three-phase alternating current power—R, S, and T of the three-phase half wave rectifier (3500) are respectively connected in series with the half wave current limit impedance component (Z11) and then connect to the three-phase alternating current power, wherein the half wave current limit impedance component (Z11) is consisted of the resistor (401) and/or the inductor (301) and/or the capacitor (201); the direct current electric energy output from the direct current output terminal of the three-phase half wave rectifier (3500) is supplied to the direct current electric-driven luminous body (2000) while the negative terminal of the direct current electric-driven luminous body (2000) connects to the neutral line (N) of the three-phase four wire power;

Direct current electric-driven luminous body (2000): constituted by gas bulb with filament, or solid state electric-driven luminous body such as LED and other electric-driven luminous body.

Moreover, if the single phase alternating current power is used, the electric energies from at least two of the following sources: 1) the output electric energy of the single alternating current power being series connected with the resistor (401), 2) the output electric energy of the same single phase alternating current power being series connected with the capacitor (201), and 3) the electric energy of the same single phase alternating current power being series connected with the inductor (301) are rectified by respective rectifiers, and then jointly drive the direct current electric-driven luminous body (2000), so as to improve the pulsation of the projected light energy intensity;

FIG. 15 is the circuit diagram showing that the single phase power being spilt by the capacitor and the inductor and then being full wave rectified, so as to drive the direct current electric-driven luminous body (2000);

As shown in FIG. 15, one terminal of the single phase alternating current power is connected to one of the alternating current input terminals of the single phase bridge rectifier (802) through the capacitor (201), and the same terminal of the same single phase alternating current power is connected to one of the alternating current input terminals of another single phase bridge rectifier (803) through the inductor (301), while the other terminal of the single phase alternating current power supplies the other alternating current power input terminal of the single phase bridge rectifiers (802) and (803), and then the direct current output terminals of the single phase bridge rectifiers (802) and (803) are homo-polar connected in parallel, so as to drive the direct current electric-driven luminous body (2000).

FIG. 16 is the circuit diagram showing that the single phase power being spilt by the capacitor and the resistor and then being full wave rectified, so as to drive the direct current electric-driven luminous body (2000);

As shown in FIG. 16, one terminal of the single phase alternating current power is connected to one of the alternating current input terminals of the single phase bridge rectifier (802) through the capacitor (201) and the same terminal of the same single phase alternating current power is connected to one of the alternating current input terminals of another single phase bridge rectifier (804) through the resistor (401), while the other terminal of the single phase alternating current power supplies the other alternating current power input terminal of the single phase bridge rectifiers (802) and (804), and then the direct current output terminals of the single phase bridge rectifiers (802) and (804) are homo-polar connected in parallel, so as to drive the direct current electric-driven luminous body (2000).

FIG. 17 is the circuit diagram showing that the single phase power being spilt by the inductor and the resistor and then being full wave rectified, so as to drive the direct current electric-driven luminous body (2000);

As shown in FIG. 17, one terminal of the single phase alternating current power is connected to one of the alternating current input terminals of the single phase bridge rectifier (803) through the inductor (301), and the same terminal of the same single phase alternating current power is connected to one of the alternating current input terminals of another single phase bridge rectifier (804) through the resistor (401), while the other terminal of the single phase alternating current power supplies the other alternating current power input terminal of the single phase bridge rectifiers (803) and (804), and then the direct current output terminals of the single phase bridge rectifiers (803) and (804) are homo-polar connected in parallel, so as to drive the direct current electric-driven luminous body (2000).

FIG. 18 is the circuit diagram showing that the single phase power being spilt by the inductor, the resistor, and the capacitor and then being full wave rectified, so as to drive the direct current electric-driven luminous body (2000);

As shown in FIG. 18, one terminal of the single phase alternating current power is connected to one of the alternating current input terminals of the single phase bridge rectifier (803) through the inductor (301), and the same terminal of the same single phase alternating current power is connected to one of the alternating current input terminals of another single phase bridge rectifier (804) through the resistor (401), and the same terminal of the same single phase alternating current power is connected to one of the alternating input terminals of another single phase bridge rectifier (802) through the capacitor (201), while the other terminal of the single phase alternating current power supplies the other alternating current power input terminal of the single phase bridge rectifiers (802), (803) and (804), and then the direct current output terminals of the single phase bridge rectifiers (802), (803) and (804) are homo-polar connected in parallel, so as to drive the direct current electric-driven luminous body (2000).

FIG. 19 is the circuit diagram showing that the single phase power being spilt by the inductor and the resistor and then being half-wave rectified, so as to drive the direct current electric-driven luminous body (2000);

As shown in FIG. 19, one terminal of the single phase alternating current power is connected to the alternating current input terminal of the rectifier diode (703) through the inductor (301), and the same terminal of the same single phase alternating current power is connected to the alternating current input terminal of another rectifier diode (704) through the resistor (401), while the other terminal of the single phase alternating current power is connected to the negative terminal of the direct current electric-driven luminous body (2000), and then the direct current output positive terminals of the rectifier diodes (703) and (704) are homo-polar connected in parallel, so as to drive the direct current electric-driven luminous body (2000).

FIG. 20 is the circuit diagram in which each phase of the three-phase alternating current power being individually connected in parallel with a circuit device in series connected by the current limit component (Z10) and the alternative current terminal of single-phase bridge rectifier, then the direct current output terminal of the single-phase bridge rectifier of each phase being homo-polar connected in parallel for jointly driving the direct current electric-driven luminous body (2000); as shown in FIG. 20, it mainly consists of:

Direct current electric-driven luminous body (2000): constituted by a solid state luminous body driven by two or more than two alternative current powers, including foundational light emitting units configured by light emitting diodes or organic light emitting diodes and driven by the direct current power, or other solid state luminous bodies capable of being driven by the direct current power;

The current limit component (Z10) is connected in series with the alternative current terminal of the single phase bridge rectifier (804), then connected in parallel between the three-phase alternating current power line R and the three-phase alternating current power line T;

The current limit component (Z10) is connected in series with the alternative current terminal of the single phase bridge rectifier (802), then connected in parallel between the three-phase alternating current power line S and the three-phase alternating current power line R;

The current limit component (Z10) is connected in series with the alternative terminal of the single phase bridge rectifier (803), then connected in parallel between the three-phase alternating current power line T and the three-phase alternating current power line S;

Current limit component (Z10): constituted by one or more than one of the following circuit structures, including:

1) At least one or more than one of the resistant impedance component, inductive impedance component and capacitor impedance component being connected in series, in parallel, or in series and parallel;

2) a fixed-current or limited-current control circuit configured by a solid state semi-conductive circuit for controlling the light emitting unit in an analog or chopping manner,

FIG. 21 is the circuit diagram in which a circuit device in series connected to the current limit component (Z10) and the alternative current terminal of single-phase bridge rectifier being individually installed between the R, S, and T lines of the three phase four wire alternating current power and the neutral line (N) of the three phase four wire alternating current power, then the direct current output terminal of the single-phase bridge rectifier of each phase being homo-polar connected in parallel for jointly driving the direct current electric-driven luminous body (2000); as shown in FIG. 21, it mainly consists of:

Direct current electric driven luminous body (2000): constituted by a solid state luminous body driven by two or more than two alternative current powers, including foundational light emitting units configured by light emitting diodes or organic light emitting diodes and driven by the direct current power, or other solid state luminous bodies capable of being driven by the direct current power;

The current limit component (Z10) is connected in series with the alternative current terminal of the single phase bridge rectifier (802), then connected in parallel between the three-phase four-wire alternating current power line R and the neutral line N of the three-phase four-wire alternating current power;

The current limit component (Z10) is connected in series with the alternative current terminal of the single phase bridge rectifier (803), then connected in parallel between the three-phase four-wire alternating current power line S and the neutral line N of the three-phase four-wire alternating current power;

The current limit component (Z10) is connected in series with the alternative current terminal of the single phase bridge rectifier (804), then connected in parallel between the three-phase four-wire alternating current power line T and the neutral line N of the three-phase four-wire alternating current power;

Current limit component (Z10): constituted by one or more than one of the following circuit structures, including:

1) at least one or more than one of the resistant impedance component, inductive impedance component and capacitor impedance component being connected in series, in parallel, or in series and parallel;

2) a fixed-current or limited-current control circuit configured by a solid state semi-conductive circuit for controlling the light emitting unit in an analog or chopping manner. 

1. A lighting device with optical pulsation suppression by polyphase-driven electric energy, which relies on polyphase alternating current power with phase difference or direct current power rectified from polyphase alternating current power to drive a common electric-driven luminous body, or to separately drive adjacently installed individual electric-driven luminous bodies so that the pulsation of the outwardly projected light is reduced.
 2. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, which includes an electric-driven luminous body individually driven by single phase power in three ways through inductor split-phase current, capacitor split-phase current and the resultant vector current of the inductor and capacitor split-phase currents, and its constitution is as follows: the terminals (1011), (1021), and (1031) of the electric-driven luminous bodies (101), (102) and (103) driven by bidirectional electric energy are connected together, the other terminal (1022) of the electric-driven luminous body (102) is arranged to connect with one terminal (2011) of the capacitor (201), the other terminal (1032) of the electric-driven luminous body (103) is arranged to connect with one terminal (3011) of the inductor (301), another terminal (2012) of the capacitor (201) and anther terminal (3012) of the inductor (301) are connected and then leaded to one terminal of an alternating current or bidirectional electric energy, and the other terminal (1012) of the electric-driven luminous body (101) is arranged to connect with the other terminal of the alternating current or bidirectional electric energy, wherein the current (I101) that passes through the electric-driven luminous body (101) is the vector sum of the current (I102) that passes through the electric-driven luminous body (102) and the current (I103) of the electric-driven luminous body (103), i.e. the total current; Electric-driven luminous bodies (101), (102), (103): constituted by gas bulbs with filaments, solid state electric-driven luminous bodies such as LED and other electric-driven luminous bodies, and wherein the three luminous bodies are integrated into one body or the three are adjacently installed.
 3. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 2, wherein the positions of the capacitor (201) and the electric-driven luminous body (102) and/or the inductor (301) and the electric-driven luminous body (103) are interchanged, wherein: The terminal (1011) of the electric-driven luminous body (101), the terminal (2011) of the capacitor (201) and the terminal (3011) of the inductor (301) are connected together, the other terminal (2012) of the capacitor (201) is connected to the terminal (1021) of the electric-driven luminous body (102), the other terminal (3012) of the inductor (301) is connected to one terminal (1031) of the electric-driven luminous body (103), the other terminal (1022) of the electric-driven luminous body (102) and the terminal (1032) of the electric-driven luminous body (103) are connected then leaded to a terminal of a power source, and the other terminal (1012) of the electric-driven luminous body (101) is connected to the other terminal of the power source; Electric-driven luminous bodies (101), (102), (103): constituted by gas bulbs with filaments, solid state electric-driven luminous bodies such as LED and other electric-driven luminous bodies, and wherein the three luminous bodies are integrated into one body or the three are adjacently installed.
 4. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the capacitor (201) which is series connected with the electric-driven luminous body (102), the inductor (301) which is series connected with the electric-driven luminous body (103), and the electric-driven luminous body (101) directly or the electric-driven luminous body (101) being series connected with the resistor (401) are arranged to parallel connect with the alternate current power source.
 5. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the capacitor (201) series connects with the electric-driven luminous body (102), and connects in parallel directly with the electric-driven luminous body (101) or with the electric-driven luminous body (101) in series with the resistor (401), so as to be driven by the alternating current or bidirectional power.
 6. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the inductor (301) series connects with the electric-driven luminous body (103), and connects in parallel directly with the electric-driven luminous body (101) or with the electric-driven luminous body (101) in series with the resistor (401), so as to be driven by the alternating current or bidirectional power.
 7. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the capacitor (201) series connects with the electric-driven luminous body (102), and connects in parallel with the electric-driven luminous body (103) in series with the inductor (301), so as to be driven by the alternating current or bidirectional power.
 8. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the three-phase alternating current power is used to supply electricity to the electric-driven luminous body to reduce the pulsation of the luminous brightness; wherein the three-phase four-wire alternating current power is used to drive three sets of electric-driven luminous bodies in Y connection, and its constitution is as follows: One terminal of the electric-driven luminous body (101) directly connects, or the electric-driven luminous body (101) is firstly connected in series with the resistive and/or capacitive and/or inductive impedance component (1000) then connects to a three-phase power line R, while the other terminal leads to a common joint point of Y connection; One terminal of the electric-driven luminous body (102) directly connects, or the electric-driven luminous body (102) is firstly connected in series with the resistive and/or capacitive and/or inductive impedance component (1000) then connects to a three-phase power line S, while the other terminal leads to a common joint point of Y connection; One terminal of the electric-driven luminous body (103) directly connects, or the electric-driven luminous body (103) is firstly connected in series with the resistive and/or capacitive and/or inductive impedance component (1000) then connects to a three-phase power line T, while the other terminal leads to a common joint point of Y connection.
 9. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the three-phase alternating current power is used to supply electricity to the electric-driven luminous body to reduce the pulsation of the luminous brightness; wherein the three-phase alternating current power is used to drive three sets of electric-driven luminous bodies in Δ connection, and its constitution is as follows: The electric-driven luminous body (101) is directly parallel connected between the power line R and the power line S, or is firstly series connected with the resistive and/or capacitive and/or inductive impedance component (1000) and then parallel connected between the power line R and the power line S; The electric-driven luminous body (102) is directly parallel connected between the power line R and the power line S, or is firstly series connected with the resistive and/or capacitive and/or inductive impedance component (1000) and then parallel connected between the power line S and the power line T; The electric-driven luminous body (103) is directly parallel connected between the power line R and the power line S, or is firstly series connected with the resistive and/or capacitive and/or inductive impedance component (1000) and then parallel connected between the power line T and the power line R.
 10. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the three-phase alternating current power is used to supply electricity to the electric-driven luminous body to reduce the pulsation of the luminous brightness; wherein the three-phase alternating current power is used to drive two sets of electric-driven luminous bodies in V connection, and its constitution is as follows: The electric-driven luminous body (101) is directly parallel connected between the power line R and the power line S, or is firstly series connected with the resistive and/or capacitive and/or inductive impedance component (1000) and then parallel connected between the power line R and the power line S; The electric-driven luminous body (102) is directly parallel connected between the power line R and the power line S, or is firstly series connected with the resistive and/or capacitive and/or inductive impedance component (1000) and then parallel connected between the power line S and the power line T.
 11. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the three-phase alternating current power is used to supply electricity to the electric-driven luminous body to reduce the pulsation of the luminous brightness; wherein the three-phase alternating current power is used to drive two sets of electric-driven luminous bodies in V connection, and its constitution is as follows: The electric-driven luminous body (101) is series connected with the electric-driven luminous body (102), and then parallel connected between the power line R and the power line T; The power line S, after connecting in series with a resistive and/or capacitive and/or inductive impedance component (1000), is then connected to the series connection point of the electric-driven luminous body (101) and the electric-driven luminous body (102).
 12. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 11, wherein including the direct current power rectified from polyphase alternating current power to drive a common electric-driven luminous body, or to separately drive adjacently installed individual electric-driven luminous bodies, so as to reduce the pulsation of the outwardly projected light; wherein a three-phase alternating current power is delivered through the current limit component (Z10) to the three phase full wave direct current electric energy that had been rectified by the bridge rectifier, and then to the direct current electric-driven luminous body (2000); this consists of: The input terminals of three-phase alternating current power—R, S, and T of the three-phase bridge rectifier (3000) are respectively connected in series with the current limit component (Z 10) and then connect to the three-phase alternating current power, wherein the current limit component (Z10) is consisted of the resistor (401) and/or the inductor (301) and/or the capacitor (201); the direct current electric energy output from the direct current output terminal is supplied to the direct current electric-driven luminous body (2000); Direct current electric-driven luminous body (2000): constituted by gas bulb with filament, or solid state electric-driven luminous body such as LED and other electric-driven luminous body.
 13. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein including the direct current power rectified from polyphase alternating current power to drive a common electric-driven luminous body, or to separately drive adjacently installed individual electric-driven luminous bodies, so as to reduce the pulsation of the outwardly projected light; wherein a three phase alternating current power being supplied, through the half-wave current limit impedance component (Z11), to the three phase half-wave rectifier (3500), and the rectified direct current electric energy is supplied to the direct current electric-driven luminous body (2000); this consists of: The input terminals of three-phase alternating current power—R, S, and T of the three-phase half wave rectifier (3500) are respectively connected in series with the half wave current limit impedance component (Z11) and then connect to the three-phase alternating current power, wherein the half wave current limit impedance component (Z11) is consisted of the resistor (401) and/or the inductor (301) and/or the capacitor (201); the direct current electric energy output from the direct current output terminal of the three-phase half wave rectifier (3500) is supplied to the direct current electric-driven luminous body (2000) while the negative terminal of the direct current electric-driven luminous body (2000) connects to the neutral line (N) of the three-phase four wire power; Direct current electric-driven luminous body (2000): constituted by gas bulb with filament, or solid state electric-driven luminous body such as LED and other electric-driven luminous body.
 14. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein if the single phase alternating current power is used, the electric energies from at least two of the following sources: 1) the output electric energy of the single alternating current power being series connected with the resistor (401), 2) the output electric energy of the same single phase alternating current power being series connected with the capacitor (201), and 3) the electric energy of the same single phase alternating current power being series connected with the inductor (301) are rectified by respective rectifiers, and then jointly drive the direct current electric-driven luminous body (2000), so as to improve the pulsation of the projected light energy intensity.
 15. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the single phase power is spilt by the capacitor and the inductor and then being full wave rectified, so as to drive the direct current electric-driven luminous body (2000), in which one terminal of the single phase alternating current power is connected to one of the alternating current input terminals of the single phase bridge rectifier (802) through the capacitor (201), and the same terminal of the same single phase alternating current power is connected to one of the alternating current input terminals of another single phase bridge rectifier (803) through the inductor (301), while the other terminal of the single phase alternating current power supplies the other alternating current power input terminal of the single phase bridge rectifiers (802) and (803), and then the direct current output terminals of the single phase bridge rectifiers (802) and (803) are homo-polar connected in parallel, so as to drive the direct current electric-driven luminous body (2000).
 16. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the single phase power is spilt by the capacitor and the resistor and then being full wave rectified, so as to drive the direct current electric-driven luminous body (2000), in which one terminal of the single phase alternating current power is connected to one of the alternating current input terminals of the single phase bridge rectifier (802) through the capacitor (201) and the same terminal of the same single phase alternating current power is connected to one of the alternating current input terminals of another single phase bridge rectifier (804) through the resistor (401), while the other terminal of the single phase alternating current power supplies the other alternating current power input terminal of the single phase bridge rectifiers (802) and (804), and then the direct current output terminals of the single phase bridge rectifiers (802) and (804) are homo-polar connected in parallel, so as to drive the direct current electric-driven luminous body (2000).
 17. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the single phase power is spilt by the inductor and the resistor and then being full wave rectified, so as to drive the direct current electric-driven luminous body (2000), in which one terminal of the single phase alternating current power is connected to one of the alternating current input terminals of the single phase bridge rectifier (803) through the inductor (301), and the same terminal of the same single phase alternating current power is connected to one of the alternating current input terminals of another single phase bridge rectifier (804) through the resistor (401), while the other terminal of the single phase alternating current power supplies the other alternating current power input terminal of the single phase bridge rectifiers (803) and (804), and then the direct current output terminals of the single phase bridge rectifiers (803) and (804) are homo-polar connected in parallel, so as to drive the direct current electric-driven luminous body (2000).
 18. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the single phase power is spilt by the inductor, the resistor, and the capacitor and then being full wave rectified, so as to drive the direct current electric-driven luminous body (2000), in which one terminal of the single phase alternating current power is connected to one of the alternating current input terminals of the single phase bridge rectifier (803) through the inductor (301), and the same terminal of the same single phase alternating current power is connected to one of the alternating current input terminals of another single phase bridge rectifier (804) through the resistor (401), and the same terminal of the same single phase alternating current power is connected to one of the alternating input terminals of another single phase bridge rectifier (802) through the capacitor (201), while the other terminal of the single phase alternating current power supplies the other alternating current power input terminal of the single phase bridge rectifiers (802), (803) and (804), and then the direct current output terminals of the single phase bridge rectifiers (802), (803) and (804) are homo-polar connected in parallel, so as to drive the direct current electric-driven luminous body (2000).
 19. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein the single phase power is spilt by the inductor and the resistor and then being half-wave rectified, so as to drive the direct current electric-driven luminous body (2000), in which one terminal of the single phase alternating current power is connected to the alternating current input terminal of the rectifier diode (703) through the inductor (301), and the same terminal of the same single phase alternating current power is connected to the alternating current input terminal of another rectifier diode (704) through the resistor (401), while the other terminal of the single phase alternating current power is connected to the negative terminal of the direct current electric-driven luminous body (2000), and then the direct current output positive terminals of the rectifier diodes (703) and (704) are horn-polar connected in parallel, so as to drive the direct current electric-driven luminous body (2000).
 20. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein each phase of the three-phase alternating current power being individually connected in parallel with a circuit device in series connected by the current limit component (Z10) and the alternative current terminal of single-phase bridge rectifier, then the direct current output terminal of the single-phase bridge rectifier of each phase being homo-polar connected in parallel for jointly driving the direct current electric-driven luminous body (2000), and it mainly consists of: Direct current electric-driven luminous body (2000): constituted by a solid state luminous body driven by two or more than two alternative current powers, including foundational light emitting units configured by light emitting diodes or organic light emitting diodes and driven by the direct current power, or other solid state luminous bodies capable of being driven by the direct current power; The current limit component (Z10) is connected in series with the alternative current terminal of the single phase bridge rectifier (804), then connected in parallel between the three-phase alternating current power line R and the three-phase alternating current power line T; The current limit component (Z10) is connected in series with the alternative current terminal of the single phase bridge rectifier (802), then connected in parallel between the three-phase alternating current power line S and the three-phase alternating current power line R; The current limit component (Z10) is connected in series with the alternative terminal of the single phase bridge rectifier (803), then connected in parallel between the three-phase alternating current power line T and the three-phase alternating current power line S; Current limit component (Z10): constituted by one or more than one of the following circuit structures, including: 1) At least one or more than one of the resistant impedance component, inductive impedance component and capacitor impedance component being connected in series, in parallel, or in series and parallel; 2) a fixed-current or limited-current control circuit configured by a solid state semi-conductive circuit for controlling the light emitting unit in an analog or chopping manner.
 21. The lighting device with optical pulsation suppression by polyphase-driven electric energy of claim 1, wherein a circuit device in series connected to the current limit component (Z10) and the alternative current terminal of single-phase bridge rectifier is individually installed between the R, S, and T lines of the three phase four wire alternating current power and the neutral line (N) of the three phase four wire alternating current power, then the direct current output terminal of the single-phase bridge rectifier of each phase being homo-polar connected in parallel for jointly driving the direct current electric-driven luminous body (2000), and it mainly consists of: Direct current electric driven luminous body (2000): constituted by a solid state luminous body driven by two or more than two alternative current powers, including foundational light emitting units configured by light emitting diodes or organic light emitting diodes and driven by the direct current power, or other solid state luminous bodies capable of being driven by the direct current power; The current limit component (Z10) is connected in series with the alternative current terminal of the single phase bridge rectifier (802), then connected in parallel between the three-phase four-wire alternating current power line R and the neutral line N of the three-phase four-wire alternating current power; The current limit component (Z10) is connected in series with the alternative current terminal of the single phase bridge rectifier (803), then connected in parallel between the three-phase four-wire alternating current power line S and the neutral line N of the three-phase four-wire alternating current power; The current limit component (Z10) is connected in series with the alternative current terminal of the single phase bridge rectifier (804), then connected in parallel between the three-phase four-wire alternating current power line T and the neutral line N of the three-phase four-wire alternating current power; Current limit component (Z10): constituted by one or more than one of the following circuit structures, including: 1) at least one or more than one of the resistant impedance component, inductive impedance component and capacitor impedance component being connected in series, in parallel, or in series and parallel; 2) a fixed-current or limited-current control circuit configured by a solid state semi-conductive circuit for controlling the light emitting unit in an analog or chopping manner. 